Artifact 2650345bbbe8c00a6f070de84d1f3b8e0ad3943959b0aeb125417bf7b1020aa4:
- File
dst/e2e_test.go
— part of check-in
[6b66ea6b2d]
at
2026-05-12 20:01:20
on branch trunk
— feat: CreateOpts.ProjectCode — accept explicit project-code on Create (#31)
* feat: CreateOpts.ProjectCode — accept explicit project-code on Create
Downstream EdgeSync coordinates a shared project-code across sibling Fossil repos created on different machines so its NATS sync subject ("<prefix>.<project-code>.sync") matches across leaves. Today every Create generates a fresh project-code, so commits never propagate.
Add CreateOpts.ProjectCode: empty preserves current behavior; non-empty must be 40-char lowercase hex (^[0-9a-f]{40}$) — the same format generated project-codes use. Validation runs at the top of libfossil.Create before any disk I/O, so invalid input cannot leave a half-written file behind. Server-code stays auto-generated.
Threaded through repo.Create / repo.CreateWithEnv / db.SeedConfig. SeedConfig validates as defense-in-depth (public package, multiple callers possible).
Clone accepting ProjectCode is out of scope; will follow separately if EdgeSync needs it.
* test: round-trip explicit ProjectCode through fossil rebuild
Asserts that vanilla `fossil` (2.28) accepts a Go-side repo created with an explicit ProjectCode, and that `fossil sql` reads back the same value we set. Closes the gap where the existing TestCreate_FossilValidation only covered the generated-project-code path. (user: [email protected], size: 6318) [annotate] [blame] [check-ins using]
package dst import ( "path/filepath" "testing" "time" "github.com/danmestas/libfossil/internal/blob" "github.com/danmestas/libfossil/db" "github.com/danmestas/libfossil/internal/repo" "github.com/danmestas/libfossil/simio" _ "github.com/danmestas/libfossil/internal/testdriver" ) func createMasterRepo(t *testing.T) *repo.Repo { t.Helper() path := filepath.Join(t.TempDir(), "master.fossil") r, err := repo.Create(path, "master", simio.CryptoRand{}, "") if err != nil { t.Fatalf("repo.Create master: %v", err) } t.Cleanup(func() { r.Close() }) return r } // TestE2EPullFromMaster seeds artifacts in the mock fossil master, // runs the simulation, and verifies that all leaves converge. func TestE2EPullFromMaster(t *testing.T) { masterRepo := createMasterRepo(t) mf := NewMockFossil(masterRepo) // Seed 5 artifacts in the master. seeded := make(map[string][]byte) for i := range 5 { data := []byte("master artifact " + string(rune('A'+i))) uuid, err := mf.StoreArtifact(data) if err != nil { t.Fatalf("StoreArtifact %d: %v", i, err) } seeded[uuid] = data } sim, err := New(SimConfig{ Seed: 42, NumLeaves: 2, PollInterval: 5 * time.Second, TmpDir: t.TempDir(), Upstream: mf, }) if err != nil { t.Fatalf("New: %v", err) } defer sim.Close() // Run enough steps for convergence (each leaf needs ~3 rounds per sync: // round 1: pull → igot; round 2: gimme → file; round 3: converge). if err := sim.Run(20); err != nil { t.Fatalf("Run: %v", err) } t.Logf("Simulation: %d steps, %d syncs, %d errors", sim.Steps, sim.TotalSyncs, sim.TotalErrors) // Verify: every seeded artifact should be in every leaf repo. for _, leafID := range sim.LeafIDs() { leafRepo := sim.Leaf(leafID).Repo() for uuid := range seeded { _, exists := blob.Exists(leafRepo.DB(), uuid) if !exists { t.Errorf("leaf %s missing artifact %s", leafID, uuid) } } } } // TestE2EPushFromLeaf stores an artifact in a leaf repo, runs the simulation, // and verifies it arrives at the master. func TestE2EPushFromLeaf(t *testing.T) { masterRepo := createMasterRepo(t) mf := NewMockFossil(masterRepo) sim, err := New(SimConfig{ Seed: 99, NumLeaves: 1, PollInterval: 5 * time.Second, TmpDir: t.TempDir(), Upstream: mf, }) if err != nil { t.Fatalf("New: %v", err) } defer sim.Close() // Store an artifact directly in the leaf's repo. leafID := sim.LeafIDs()[0] leafRepo := sim.Leaf(leafID).Repo() data := []byte("artifact pushed from leaf") var uuid string err = leafRepo.WithTx(func(tx *db.Tx) error { rid, u, err := blob.Store(tx, data) if err != nil { return err } uuid = u _, err = tx.Exec("INSERT OR IGNORE INTO unsent(rid) VALUES(?)", rid) return err }) if err != nil { t.Fatalf("store in leaf: %v", err) } // Run simulation. if err := sim.Run(20); err != nil { t.Fatalf("Run: %v", err) } t.Logf("Simulation: %d steps, %d syncs, %d errors", sim.Steps, sim.TotalSyncs, sim.TotalErrors) // Verify: artifact should be in the master repo. _, exists := blob.Exists(mf.Repo().DB(), uuid) if !exists { t.Errorf("master missing artifact %s pushed from leaf", uuid) } } // TestE2EBidirectional tests both push and pull in the same simulation. func TestE2EBidirectional(t *testing.T) { masterRepo := createMasterRepo(t) mf := NewMockFossil(masterRepo) // Seed artifact in master. masterData := []byte("from master for bidirectional") masterUUID, _ := mf.StoreArtifact(masterData) sim, err := New(SimConfig{ Seed: 7, NumLeaves: 2, PollInterval: 5 * time.Second, TmpDir: t.TempDir(), Upstream: mf, }) if err != nil { t.Fatalf("New: %v", err) } defer sim.Close() // Seed artifact in leaf-0. leaf0Repo := sim.Leaf("leaf-0").Repo() leafData := []byte("from leaf-0 for bidirectional") var leafUUID string leaf0Repo.WithTx(func(tx *db.Tx) error { rid, u, err := blob.Store(tx, leafData) if err != nil { return err } leafUUID = u tx.Exec("INSERT OR IGNORE INTO unsent(rid) VALUES(?)", rid) return nil }) // Run enough steps. if err := sim.Run(40); err != nil { t.Fatalf("Run: %v", err) } t.Logf("Simulation: %d steps, %d syncs, %d errors", sim.Steps, sim.TotalSyncs, sim.TotalErrors) // Master artifact should be in both leaves. for _, id := range sim.LeafIDs() { _, exists := blob.Exists(sim.Leaf(id).Repo().DB(), masterUUID) if !exists { t.Errorf("leaf %s missing master artifact %s", id, masterUUID) } } // Leaf-0 artifact should be in master. _, exists := blob.Exists(mf.Repo().DB(), leafUUID) if !exists { t.Errorf("master missing leaf-0 artifact %s", leafUUID) } // Leaf-0 artifact should also be in leaf-1 (via master relay). // This requires leaf-1 to pull after master received it from leaf-0. _, exists = blob.Exists(sim.Leaf("leaf-1").Repo().DB(), leafUUID) if !exists { t.Logf("NOTE: leaf-1 hasn't received leaf-0's artifact yet (may need more rounds)") } } // TestE2EPartitionAndHeal tests that a partitioned leaf catches up after healing. func TestE2EPartitionAndHeal(t *testing.T) { masterRepo := createMasterRepo(t) mf := NewMockFossil(masterRepo) masterData := []byte("artifact before partition") masterUUID, _ := mf.StoreArtifact(masterData) sim, err := New(SimConfig{ Seed: 123, NumLeaves: 2, PollInterval: 5 * time.Second, TmpDir: t.TempDir(), Upstream: mf, }) if err != nil { t.Fatalf("New: %v", err) } defer sim.Close() // Partition leaf-1. sim.Network().Partition("leaf-1") // Run some steps — leaf-0 should sync, leaf-1 should fail. sim.Run(10) // leaf-0 should have the artifact. _, exists := blob.Exists(sim.Leaf("leaf-0").Repo().DB(), masterUUID) if !exists { t.Fatal("leaf-0 should have master artifact after 10 steps") } // leaf-1 should NOT have the artifact. _, exists = blob.Exists(sim.Leaf("leaf-1").Repo().DB(), masterUUID) if exists { t.Fatal("leaf-1 should NOT have master artifact while partitioned") } // Heal and run more steps. sim.Network().Heal("leaf-1") sim.Run(10) // Now leaf-1 should have caught up. _, exists = blob.Exists(sim.Leaf("leaf-1").Repo().DB(), masterUUID) if !exists { t.Error("leaf-1 should have master artifact after healing") } }